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Course Syllabus for General Physics II with Calculus - Fall 2008 | PHY 2524, Lab Reports of Physics

Material Type: Lab; Class: Physics II w/ Cal Lec/Lab; Subject: Physical Science and Physics; University: Mississippi Gulf Coast Community College; Term: Fall 2006;

Typology: Lab Reports

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MISSISSIPPI GULF COAST COMMUNITY COLLEGE
JEFFERSON DAVIS CAMPUS
COURSE OF STUDY
FALL 2006
DATE REVISED
COURSE NAME: General Physics II with Calculus
COURSE NUMBER: PHY 2524
SCIENCE DEPARTMENT: Jefferson Davis Campus
Stephen Roberts, Chair
SEMESTER CREDIT HOURS: Four Semester Credit Hours
CONTACT HOURS:
LECTURE: Three Hours
LABORATORY: Two Hours
PREREQUISITES: PHY 2514
COURSE DESCRIPTION:
A combined lecture and laboratory course covering
electricity, magnetism, optics, and modern
physics. This is a calculus-based course primarily for
students of engineering, science, or mathematics.
Labs associated with this course contain experiments
and exercises that reinforce the principles introduced
in lecture classes.
TEXTBOOK: Physics for Scientists and Engineers. 6th ed.
Swerway and Jewett.
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MISSISSIPPI GULF COAST COMMUNITY COLLEGE

JEFFERSON DAVIS CAMPUS

COURSE OF STUDY

FALL 2006

DATE REVISED

COURSE NAME: General Physics II with Calculus COURSE NUMBER: PHY 2524 SCIENCE DEPARTMENT: Jefferson Davis Campus Stephen Roberts, Chair SEMESTER CREDIT HOURS: Four Semester Credit Hours CONTACT HOURS: LECTURE: Three Hours LABORATORY: Two Hours PREREQUISITES: PHY 2514 COURSE DESCRIPTION: A combined lecture and laboratory course covering electricity, magnetism, optics, and modern physics. This is a calculus-based course primarily for students of engineering, science, or mathematics. Labs associated with this course contain experiments and exercises that reinforce the principles introduced in lecture classes. TEXTBOOK: Physics for Scientists and Engineers. 6th^ ed. Swerway and Jewett.

LABORATORY MANUAL: Laboratory Experiments in College Physics. Seventh Edition. Bernard and Epp CORE OBJECTIVES / TOPICS: Core topics to be covered in all General Physics II-A lecture classes: a. electricity b. magnetism c. optics d. modern physics The following course objectives cover the minimum core topics that are listed above for this course. Additional objectives are taught at the discretion of the instructor. CONTENT OUTLINE: I Introduction: electric charge, atomic structure; conductors and insulators; electrostatic charging by induction; applications of Coulomb's law II The electric field: calculation of electric fields from known charge distributions; the concept of field lines; Gauss’ law and applications III Electrical potential energy: the potential; calculation of potential distributions from known charge distributions; the mapping of electric fields and potentials; the cathode ray tube IV Capacitance: the parallel plate capacitor; capacitors in series and parallel configurations; capacitors as elements in circuits; stored energy in capacitors V Electric current: concept of electric current in conductors; resistivity; electromotive force; potential energy and power in electric circuits; measurement of potential and current distribution in series and parallel circuits VI Direct current circuits: resistors in series and parallel configurations; application of Kirchhoff’s equations; the RC circuit; the Wheatstone bridge; the potentiometer; Kirchhoff’s analysis of a real circuit; measurement of capacitor transients;

  1. Determine the potential distribution from simple charge arrangements with spherical, cylindrical or planar distributions.
  2. Solve potential and charge distribution problems for capacitors in simple circuits.
  3. Use the Kirchhoff equations to solve for current and potential distributions in simple dc circuits; solve for transient currents and voltages in simple RC circuits.
  4. Describe trajectories of charged particles moving in uniform magnetic fields; calculate the forces on current carrying conductors in uniform magnetic fields.
  5. Calculate magnetic fields arising from simple current distributions; use Ampere's law to find distributions of magnetic fields.
  6. Explain the operation of simple DC motors and generators.
  7. Determine mutual and self-inductance for simple arrangements of coils.
  8. Calculate the phasors for resistive, capacitive and inductive elements in ac circuits; determine the resonant condition for AC circuits.
  9. Construct ray diagrams for optical reflection and refraction at plane and spherical interfaces, construct ray tracing diagrams and solve the lens equation for optical systems having two elements (lenses or mirrors).
  10. Set up simple DC circuits for the investigation of current and voltage distribution; measure capacitance and operation of an oscilloscope.
  11. Use an optical bench to measure focal lengths of lenses and mirrors.